In-house development Own manufacturing Sole distributor in ... Flange Coupling.pdf · Rigid flange...

In-house developmentOwn manufacturingSole distributor in GermanyWorking with distributors worldwide

Flange couplingConnecting flange

rigid connection

DISTRIBUIDORAUTORIZADO

MEX (55) 53 63 23 31QRO (442) 1 95 72 60

MTY (81) 83 54 10 [email protected]

INDUSTRIAL

2 | 12/2017 Changes reserved

Design examples

FKStandard design

FKBLike FK, but shrink discwith hexagon socket screws(bolting through flange)

FKSFK with brake disc

FKBSLike FKS, but shrink discwith hexagon socket screws(bolting through flange)

FK half design

Half FK in standard design.Also available as half-FKB.

FKS half design

Half FK in standard design with brake discAlso available as half FKBS.

FK with large diameter difference

Large variations in shaft diameterswith different shrink discs for all designs(e.g. FKB-200/145/220 TAS)


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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12/2017 | 3Changes reserved

AF 22 For high torque transmission For bending moments

AF 12 For medium torque transmission Without bending moments

AFS For medium torque transmission Without bending moments

AF 23 For very high torque transmission For bending moments

Design examples


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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Content Page

Design examples 2

Description of function FK 6

Product data 6

Basics - Design FK 7

Basics - Calculation FK 8

Rigid flange coupling FK 10

Explanation of the product questionnaire FK/FKH 12

Product questionnaire FKH 14

Connecting flange AFS 16

External clamping elements AF 12 18

External clamping elements AF 22 20

External clamping element AF 23 24

Further products ... 29


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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Description of function FKRigid flange coupling with three-parted shrink disc of the type TAS 30..

The main function of the rigid flange coupling (FK) is the safe and backlash-free connection of two shafts by means of friction. For example, between a drive shaft and an agitator shaft. Flange couplings are directly separable at the flanges. The used shrink discs generate a backlash-free connection by pressing the flange-hubs onto the shafts. This connection is mainly used to transmit torque.

The shrink discs do not transmit any forces and/or moments between the shafts and hubs, they just provide the necessary forces. They are not in the flow of forces.

It is installed by sliding the flanges onto the shaft ends and subsequent tightening of the shrink disc. Thereafter the flanges are connected by bolting.

The rigid flange couplings are supplied ready for installation.

To achieve proper operation and a sufficiently high coefficient of friction, the contact surfaces between the shaft extensions and flange-hubs, as well as the contact surfaces of the flanges, must be free of grease, dry and clean. The functional surfaces of the shrink disc, threads and head rests of the screws are provided at the factory with lubricant. The contact surfaces between the flange-hubs and shrink discs are oiled.

A detailed installation manual is available on the Internet.

Data sheets

• Contact us if a data sheet for an individual product is required.

CAD data

• For CAD data of flange couplings, contact us directly, please. We provide them only upon request.

Product data

Flange 1Flange 2

Shrink disc 1

Shrink disc 2

Contact surfaces betweenhub and shaft must befree of grease, dry and clean!

Shaft 2

Nut

Bolt

Shaft 1


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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Advantages and differences to other systems

• Use of shrink discs / flow of forces

Due to the use of shrink discs, the forces and moments are transferred directly between the shaft and flange. In comparison with internal clamping systems the achievable runout accuracy is higher.

• Pursue the same diameter - but an adaptation to different diameters is also possible

Basically the target should be to connect shaft ends of the same size. With larger deviations the flange-hubs can be adapted for the different diameters. This is done by using different shrink discs.

• Tightening torque of the clamping screws

When using different shrink discs and shaft diameters, the tightening torque and therefore the clamping forces of the shrink discs are adjustable. For example, this is also possible with soft shaft materials and reduces, if required, the stresses in the components.

• Positioning

The cylindrical connection, as well as the used clearance, allows an easy and precise positioning of the flanges on the shaft ends. During the clamping process there is no more shift.

• Short length (B version)

The design „B“, with clamping the shrink discs through the flange face, provides a very short mounting length, as there is no extra space needed behind the coupling.

• No hydraulic necessary

A hydraulic expansion of the hubs is not necessary for mounting.

• No heating necessary

There is no need for expansion of the hubs by heating. To increa-se the clearance between the shaft and flange, a slight warming is possible.

• Shafts with keyways

The couplings can be used on shafts with keyways. As far as pos-sible, the keyways should be closed.

Tolerances and surfaces

The values found in the product data, are based on surface quality and tolerances, according to the table below. These values are given as recommendations.

Higher values for the surface roughness reduce the transmissible torque and promote unwanted settling.

Larger clearance also reduces the transmissible torque and increases stresses in the flange-hub.

If you have different shaft tolerances, please let us know.Then we can adjust the bores in the flanges accordingly!

Recommended tolerances and surface roughness

> ≤ FSmax

mmClearanceHub/Shaft

Rzµm

9 18 0,022 H6/h6 10

18 30 0,026 H6/h6 10

30 50 0,032 H6/h6 10

50 80 0,049 H7/h6 10

80 120 0,057 H7/h6 16

120 150 0,065 H7/h6 16

150 180 0,079 H7/g6 16

180 250 0,090 H7/g6 16

250 315 0,101 H7/g6 16

315 400 0,111 H7/g6 16

400 500 0,123 H7/g6 25

500 630 0,136 H7/g6 25

630 800 0,154 H7/g6 25

800 1000 0,172 H7/g6 25

Basics - Design FK


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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Basics - Calculation FKThe calculation of the values, given in the catalogue, are based on the following assumptions and simplifications:

Distinction flange connection / shrink disc

Due to the design, the transmissible forces and torque, are to look separately for the shrink disc and the flange. While the shrink disk provides clamping forces only, the transmissible forces and torque must accommodated by the flange. This results in different values for shrink connection and flange.

Transmissible torque at the shrink disc

A shrink disc connection is capable of transmitting torque, bending moment and axial force. Substituted, the transmissible torque Mmax is specified in the product data. If such loads occur simultaneously then they must be added vectorially to the resultant moment Mres.The formula below applies to the resulting moment:

Mres ≤ Mmax

At different load cases, they must be individually checked against Mmax !

Mres is determined for combined loads as follows:

Mres= √MT 2 +MB 2 +(FAX dW–2 )2

with MB ≤ 0,3 MT as the limit* for the the bending moment

*In principle, the maximum bending moment corresponds to the maximum transmittable torque. The limitation to 0,3 MT is due to the change of the surface pressure at the edges of the connection. (This information applies to the shrink connection only!)

This results in the following relationships:

Torque only: The maximum torque is equivalent to Mmax .

Bending moment only: The maximum bending moment corresponds to 0,3 MT .

Axial force only: The maximum axial force is Mmax 2 – dW

.

Transmissible forces and torques at the flange connection

The bolt connection of the flanges is also based on friction. Based on this, torques can be transmitted. The torque capacity usually corresponds to the shrink disc, or is higher. The transmissible bending moment must be especially considered.

Bending influences the bolt connections and the flange itself. The static load usually corresponds to the transmissible bending moment of the shrink disc, the dynamic load is lower and will be determined in a particular case by us (Product questionnaire).

The same applies to axial loads, as they are transmitted directly by the bolt connection of the flanges.

Static and dynamic load

For some applications, a static view of the coupling is sufficient. The clamping forces of the shrink disk are static. Also steady torques and/or axial forces can be considered as static loads. Rotating bending, has to be considered as dynamic load and the coupling must be examined for that. Therefore, it is also essential to specify the occurring load cases.

Shaft and hub calculation

The catalogue contains information on the generated surface pressure for each shrink disc. The flange-hub will be deformed due to the applied clamping force. In addition to the clearance between shaft and flange-hub, shaft stiffness and surface finish should be concidered. For solid shafts the stiffness can be ignored, but with hollow shafts (see „Bore in the shaft (hollow shaft)“) there is higher deformation and thus higher stresses in the components. This must be considered in addition to other loads.

The stresses in the hub can be determined by various hypotheses, such as GEH. We will not make a presentation and analyse results at this point because we would only be able to cover a very limited range of static applications. Various calculation methods for different cases can be found in engineering literature or using specialiced software. However, for complex geometry often only a calculation by FEM gives reliable results.

The information, about the minimum yield strength of shafts and hubs are suggested recommendations, based on typical values for such applications. They are provided as guidelines and are not a re-placement for a proper calculation for a given application!

Notch effect

Generally there is a notch effect on the components, caused by the radial pressure of the shrink disc. This depends mainly on the ap-plied pressure. The notch effect is generally higher on the hub than on the shaft, because here the inner ring of the shrink disc is direct-ly pressed onto the hub, while the stresses are distributed through the hub before reaching the shaft. The notch factors range from 2,5 to 3,5 for the hub and between 1,5 and 2 for the shaft. This can be mitigated by suitable design features, such as relief notches.


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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Some standards provide the possibility of a notch factor to be determined by a fit pairing (interference fit) for a shrink-connection. A similar method also can be used for a shrink disc connection. To this end an oversize can be calculated from the applied surface pressures. As a result, a matching fit pair can be determine and thus a resultant notch factor found.

Bore in the shaft (hollow shaft)

A large bore dB in the shaft or the use of a hollow shaft, reduces the stiffness of this component against radial pressure. This leads to a decrease in pressure pW , a reduced transmissible torque M, a contraction ΔdB within the shaft and an increase of stresses in these components. Basically, a bore should not be greater than 0,3 dW .

Basics - Calculation FK


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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Lb

z

a1 a2

A Dd W1

Dz

FK Nominal sizedW1 & dW2 [mm] Shaft diametersMt max [Nm] Maximal transmittable torque (depends on used shrink disc and dW)

A [mm] Pitch circle diameterD [mm] Outer diameterDz [mm] Diameter of the flange centering L [mm] Width of the flange couplinga [mm] Width of the shrink discb [mm] Thickness of flangez [mm] Depth of the centering

I [kgm2] Moment of inertia

BoltsZ NumberS SizeMA [Nm] Required tightening torque

Used Symbols

SFK-Half T1

d W2

FK-Half T2

Shrink disc 2

Shrink disc 1

Nut

Flange 2

Flange 1

Bolt

Example: FKB

Rigid flange coupling FK


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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Standard dimensions

Shrink disc Dimensions Flange bolts

FK dW Mt max Type MA A D Dz L a b z Z S MA Weight

mm Nm 3071-d Nm mm mm mm mm mm mm mm Stk Nm kgm2 kg

75 75 7300 100 30 210 240 170 136 44 44 4 6 M 16 x 70 210 0,165499 26

90 90 13100 125 59 265 305 215 160 54 48 5 6 M 20 x 80 420 0,487699 48

100 100 17900 140 100 286 340 230 190 64 56 5 5 M 24 x 90 720 0,829143 63

120 120 38700 165 250 356 400 300 228 75 72 5 8 M 24 x 110 720 2,126131 120

130 130 42600 175 250 356 400 300 228 75 72 5 8 M 24 x 110 720 2,246611 120

150 150 79500 195 250 420 475 350 278 90 90 6 10 M 30 x 130 1450 5,408399 215

165 165 103000 220 250 440 510 370 314 108 90 6 14 M 30 x 130 1450 7,692146 270

180 180 144000 240 490 475 540 405 322 113 88 6 16 M 30 x 130 1450 10,247074 310

200 200 193000 (1) 260 490 500 560 430 368 125 110 8 16 M 30 x 150 1450 14,889123 395

220 220 251000 280 490 530 590 460 392 139 104 8 18 M 30 x 150 1450 18,392262 445

240 240 318000 300 490 555 615 485 408 147 104 8 20 M 30 x 150 1450 22,627586 500

260 260 435000 340 490 640 710 570 450 161 118 8 24 M 30 x 160 1450 45,880687 780

290 290 519000 360 490 660 720 590 450 167 106 8 24 M 30 x 150 1450 76,117692 790

310 310 697000 390 840 735 805 660 484 180 114 8 28 M 30 x 160 1450 81,558246 1060

340 340 891000 420 840 770 835 690 528 208 122 10 30 M 30 x 160 1450 102,442438 1230

380 380 1198000 460 840 845 920 770 586 202 128 10 35 M 30 x 170 1450 166,038502 1420

410 410 1431000 500 1250 940 1030 850 618 225 156 12 32 M 36 x 200 2400 283,051874 2200

440 440 1961000 530 1250 1000 1100 900 696 258 160 14 36 M 36 x 200 2400 382,170457 2680

470 470 2397000 590 1250 1080 1180 980 744 280 164 14 40 M 36 x 200 2400 553,092493 3340

500 500 2742000 620 1250 1110 1210 1020 744 280 164 14 42 M 36 x 200 2400 638,288490 3620(1) 3071.4

Examples: TAS FK-090/085/095 Flange coupling in nominal size FK = 090 / dW1 = Ø85 / dW2 = Ø95 TAS FKB-090/085/095 Flange coupling design „B“ in nominal size FK = 090 / dW1 = Ø85 / dW2 = Ø95 TAS FKS-090/085/095 Flange coupling with brake disc in nominal size FK = 090 / dW1 = Ø85 / dW2 = Ø95 TAS FKBS-090/085/095 Flange coupling design „B“ with brake disc in nominal size FK = 090 / dW1 = Ø85 / dW2 = Ø95

How to order (product identification)

T A S F K B S - 0 9 0 / 1 0 0 / 1 0 0 - 0 0 0 1

type

optional - design „B“

optional - brake disc

nominal size of the flange coupling FK

Shaft diameter at flange T1 dW1

Shaft diameter at flange T2 dW2 (not applicable for half FK)

Item number (if known)

Includes reference to:Type of shrink discsSize of shrink discsToleranced dimensionsTightening torques

Rigid flange coupling FK


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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Why this questionnaire exists! (Notes on the questionnaire)

The purpose of the flange coupling of the type FK is, the rigid connection of two shafts, generally for transmission of torque. This type of coupling, meanwhile are used in many different applications. These transmits various loads through the coupling and therefore they have diverse requirements.

The questionnaire was developed to illustrate the main features of such couplings and to determine requirements, depending on the application. This includes the loads, exact geometry data and design type of the coupling.

The typical characteristics, which can be found in almost every application, will be queried on the first sheet. Special needs arise in applications that generate significant bending torques at the couplings. They can be of static and dynamic nature and affect dramatically the usability of couplings. Often, the bending moments, are the most important design criteria!

Special attention will be paid to applications such as belt drives. These applications are treated spe-cially on page 2 of the questionnaire. The additional requested information here, should make it possible to determine the loads of all possible operating conditions. Depending on the design and operating conditions, many different load cases are considered, which are mainly influenced by the following points:

• Mass, center of gravity and torque-arm define the static loads• Torque, rotating direction and torque-arm define the dynamic loads• Brakes and backstops can invert the loads• Movable systems may cause load changes• Stiffness and manufacturing tolerances can cause unwanted reactions

The requested information in this area allows us a closer look at these relations. Finally this results in a reliable choice or new design of a flange coupling for your application.

Application questionnaire

Explanation of the product questionnaire FK/FKH


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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l1

Db1dW1

x1

Db2 dW2

l2

x2

This form is also available on our website at - www.tas-schaefer.de

l1

Db1dW1

x1

Flan

ge 1

Flan

ge 2

Shaft 1 Shaft 2Db2 dW2

l2

x2

Example

Dimensioning of Rigid Coupling Design FK/FKH(Shaft - Connection)

In order to allow us an accurate evaluation / design, please fill in all the known data.If you are able to provide us a drawing, a sketch or similar, please send us such known information too.

Device type:

FK standard

FK type „B“

FKH (hydraulic)

Customized

Environment:

corrosive

Dust

Temperature range

[°C]

Company Date

Address

Contact Department

Phone FAX

E-Mail

Reference

Sheet 1/2

(for a “flying” drive, use sheet 2 please)

static dynamic

Max. bending moment Mb [Nm]

Max. radial load Frad [N]

Max. axial load Fax [N]

Geometric details:

Shaft 1 / Flange 1 (male)

Shaft diameter dW1 [mm] Tolerance Rz

Bore in the shaft Db1 [mm]

Material Re/Rp0,2 [MPa] E-Modulus [MPa]

Max. clamping length I1 [mm]

available space x1 [mm]

Shaft 2 / Flange 2 (female)

Shaft diameter dW2 [mm] Tolerance Rz

Bore in the shaft Db2 [mm]

Material Re/Rp0,2 [MPa] E-Modulus [MPa]

Max. clamping length I2 [mm]

available space x2 [mm]

Loads:

Motor power p [kW]

Motor speed n [min-1]

Transmission ratio i

Drive speed n [min-1]

Nominal torque Mt [Nm]

Max. torque Mt max [Nm]

Safety factor SF

Nominal braking torque Mbr [Nm]

Holdback torque Mrh [Nm]

Operation time [%]

Number of starts [n/t]

Comments: (coatings, environmental conditions, number of tensions, special requirements, etc. ...)

TAS Schäfer GmbH

Osterfeldstraße 75

58300 Wetter (Ruhr)

Germany

'+49 (0) 2335 9781-0

7+49 (0) 2335 72956

E-Mail: [email protected]


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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This form is also available on our website at - www.tas-schaefer.de

Sheet 2/2

Company Date

Address

Reference

Using a “flying” drive (typical arrangement for conveyor drives), creates bending moment. Information about weight, COG, torque-arm, rotational direction and type of torque support are very important to evaluate the bending loads. All information is needed to do this calculation completely!

Examples for torque support mounting Fixed: stationary (screws, bolts fastening, …) Flexible: freely movable or possible slight movements (rubber bearing, …) Variable: movable in a defined direction (rail system, swinging support, …)

Direction of rotation:

CW (clockwise)

CCW (counterclockwise)

CW/CCW (both directions)

Torque support design:

fixed

flexible

variable

Drivetrain mass FG [N]

Shaft extension l [mm]

Position of barycenter (COG) lGx [mm] lGy [mm] lGz [mm]

min.

max.(1) (1)

Position torque support lsx [mm] lsy [mm] lsz [mm]

min.(1) only if variable max. (1) (1)

torque support

barycenter

drive-shaft support

Example

Brake:

without

at drive

not at drive

Backstop:

without

at drive

not at drive

Angle of drivetrain α [°] alterable from to

Rigidity of torque support [N/mm]

Enabled movement X± [mm] Y± [mm]

Shaft bending under load β [minute]

Max. shaft run-out (manufacturing): radial [mm] angle [minute]

Further details

Dimensioning of Rigid Coupling Design FK/FKH(Shaft - Connection)

TAS Schäfer GmbH

Osterfeldstraße 75

58300 Wetter (Ruhr)

Germany


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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Connecting flange AFS

Example: AFS-200/470

Scheibe D

▶

dW [mm] Shaft diameterD [mm] Outer diameter of the connecting flange Mt max [Nm] max transmittable torqueH [mm] Width of the connecting flange d [mm] Outer diameter disc DA [mm] Pitch circle diameter disc DA1 [mm] Pitch circle diameter flangeb [mm] Width of the flange

SchraubenZ Number of screws disc DS SizeMA [Nm] Required tightening torqueS/a Number/ Size bores of the flange

Used Symbols

Alternative versions with centering,tapped holes and additionalsizes on request.

Design of the connecting flange


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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Connecting flange AFSdwmm

Dmm

Mt

NmH

mmd

mmA

mmZ

StkS MA

NmA1mm

S/a1 MA

Nmb

mmWeight

kg

30 105 310 23 70 54 6 M6 x 020 12 90 4/6,6 12 34 1,00

35 110 450 23 75 59 7 M6 x 020 12 95 5/6,6 12 34 1,1

40 130 645 26 85 64 8 M6 x 022 12 110 4/9 30 34 1,3

45 135 850 26 90 68 9 M6 x 022 12 115 4/9 30 34 1,4

50 140 1100 27 95 73 10 M6 x 025 12 120 5/9 30 34 1,7

55 150 1375 27 105 78 11 M6 x 025 12 130 5/9 30 34 1,9

60 155 1725 28 110 84 12 M6 x 025 12 135 6/9 30 34 2,0

65 170 1940 30 125 95 7 M8 x 030 30 150 7/9 30 34 2,6

70 180 2500 30 135 100 8 M8 x 030 30 160 8/9 30 34 3,1

75 195 3000 34 140 105 9 M8 x 030 30 170 6/11 59 34 3,6

80 200 3650 34 145 110 10 M8 x 030 30 175 7/11 59 34 4,1

85 210 4150 37 155 118 11 M8 x 035 30 185 7/11 59 34 4,8

90 215 4950 37 160 123 12 M8 x 035 30 190 8/11 59 34 5,4

100 235 7350 40 180 138 10 M10 x 040 59 210 10/11 59 34 5,7


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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AF Series 12

Typ Nominal sizedW [mm] Shaft diameterMt max [Nm] Max transmittable torque D [mm] Outer diameterI [mm] Length of the bush H [mm] Width of the external clamping elementA [mm] Pitch circle diameterC [mm] Length of the centeringd [mm] Diameter of the centeringB [mm] Attachment size

ScrewsZ Number of screwsS Size of screwsMA [Nm] Required tightening torque

Used Symbols

Model A Model AB

Model C Model BC

Pressure ring painted

Dimension H in unlocked position

Applies to all types:

b > 1,4 x Screw diameter

Design of the external clamping element

Example: AF-60-12-60 AModel

Shaft diameter

Series

Nominal size


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AF Series 12

Typdw

mmMtmax

NmD

mmI

mmH

mm A

mmC

mmd

mmB

mmZ

Stk.S Class Ma

NmWeight

kg

AF-10

11 20

10 20 39 9 10 25 1,5 12 13 3 M6x18 10.9 12 0,1

9 20

AF-12

13 50

12 50 44 12 13 28 1,5 14 16 3 M6x20 10.9 12 0,1

11 50

AF-15

16 130

15 130 52 14 15 36 2 18 21 3 M8x25 10.9 29 0,2

14 130

AF-20

20 200

18 200 60 16 17 42 2 22 25 3 M8x30 10.9 29 0,3

16 200

AF-25

25 340

22 340 70 18 19 48 2 27 31 5 M8x30 10.9 29 0,4

20 340

AF-30

30 550

28 550 76 20 21 56 2 32 38 6 M8x35 10.9 29 0,6

25 550

AF-40

40 1060

35 1060 96 24 25 70 3 43 47 6 M10x35 10.9 58 1,2

30 1060

AF-50

50 2200

45 1800 112 29 30 84 3 53 58 7 M12x45 10.9 100 2

40 1000

AF-60

60 3230

55 3230 120 32 34 94 3 63 66 9 M12x50 10.9 100 2,3

50 2300

AF-70

70 5800

65 5800 148 38 40 112 4 74 79 8 M16x60 10.9 240 4,2

60 4500

AF-80

80 8640

75 8640 170 42 44 130 4 84 94 9 M16x65 10.9 240 6,1

70 6900

AF-90

90 12000

85 12000 185 48 50 144 4 94 104 12 M16x70 10.9 240 8

80 10700

AF-100

100 15800

95 15800 197 52 54 156 4 104 113 14 M16x75 10.9 240 9,5

90 15800


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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AF Series 22

Model A Model AB

Model C Model BC


Shaft diameter

Series

Nominal size



Used Symbols







MEX (55) 53 63 23 31QRO (442) 1 95 72 60


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AF Series 22

Typdw

mmMtmax

NmD

mmI

mmH

mm A

mmC

mmd

mmB

mmZ

Stk.S Class Ma

NmWeight

kg

AF-12

12 50

11 50 35 10 7 24 1,5 14 13 3 M6x20 10.9 12 0,1

AF-14

14 70

13 70 38 10 7,3 26 1,5 16 15 3 M6x20 10.9 12 0,1

AF-16

16 80

15 80 41 13,5 9 28 2 18 17 3 M6x25 10.9 12 0,1

AF-18

18 130

17 130 44 13,5 9 30 2 20 19 4 M6x25 10.9 12 0,1

AF-20

20 140

19 140 47 13,5 9 32 2 22 21 4 M6x25 10.9 12 0,2

AF-25

25 200

24 200 50 17 17 36 2 27 26 5 M6x30 10.9 12 0,2

22 200

AF-30

30 300

28 300 60 18 19 44 3 32 32 6 M6x30 10.9 12 0,3

26 300

AF-35

36 500

35 500 72 20 21 52 3 38 38 5 M8x35 10.9 29 0,5

32 450

AF-40

44 750

40 750 80 22 23 61 3 46 47 6 M8x35 10.9 29 0,7

38 720

AF-50

50 1300

45 1300 90 24 25 68 3 53 53 8 M8x40 10.9 29 0,9

42 1000

AF-55

55 1600

52 1600 100 26 27 72 3 58 58 8 M8x40 10.9 29 1,2

45 1600

AF-60

62 2000

60 2000 110 26 27 80 3 63 66 9 M8x40 10.9 29 1,4

50 2000

AF-70

70 2100

65 2100 115 26 27 86 4 74 72 9 M8x40 10.9 29 1,5

60 2100

AF-80

80 4000

75 4000 141 28 29 100 4 84 82 10 M10x45 10.9 58 2,5

70 4000

AF-90

90 5700

85 5700 155 34 35 114 4 94 94 12 M10x50 10.9 58 3,6

80 5700


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AF Series 22

Typdw

mmMtmax

NmD

mmI

mmH

mm A

mmC

mmd

mmB

mmZ

Stk.S Class Ma

NmWeight

kg

AF-100

100 8400

95 8400 170 39 40 124 4 104 104 12 M12x60 10.9 100 4,6

90 8400

AF-110

110 9200

105 9200 185 45 46 136 5 116 114 12 M12x70 10.9 100 6,2

100 9200

AF-125

125 21000

120 21000 215 48 50 160 5 126 134 12 M16x75 10.9 240 8,8

115 21000

AF-140

140 26000

135 26000 230 52 54 176 5 146 146 14 M16x80 10.9 240 11

130 26000

AF-155

160 31000

155 31000 263 54 55 192 5 166 162 15 M16x80 10.9 240 15

150 31000

AF-170

170 36000

165 36000 290 61 62 204 5 176 175 16 M16x90 10.9 240 21

160 36000

AF-180

180 43000

175 43000 300 61 62 218 5 186 185 18 M16x90 10.9 240 22

170 43000

AF-190

190 60000

185 60000 320 77 78 232 5 196 195 15 M20x110 10.9 470 31

180 60000

AF-200

200 67000

195 67000 340 75 78 246 5 206 209 16 M20x110 10.9 470 35

190 67000

AF-220

220 93000

210 93000 370 95 96 270 5 226 230 14 M24x130 10.9 820 53

200 93000

AF-240

240 117000

230 117000 405 98 100 296 5 246 248 16 M24x140 10.9 820 64

220 117000

AF-260

260 126000

250 126000 430 106 106 318 5 266 266 16 M24x150 10.9 820 80

240 126000

AF-280

280 151000

270 151000 460 118 118 340 5 286 288 18 M24x160 10.9 820 95

260 151000

AF-300

300 178000

290 178000 485 125 126 360 5 306 309 20 M24x170 10.9 820 110

280 178000

AF-320

320 248000

300 248000 520 125 126 380 5 330 328 20 M27x170 10.9 1210 134

280 248000


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


INDUSTRIAL


AF Series 22

Typdw

mmMtmax

NmD

mmI

mmH

mm A

mmC

mmd

mmB

mmZ

Stk.S Class Ma

NmWeight

kg

AF-340

340 275000

320 275000 570 134 136 402 5 350 351 21 M27x180 10.9 1210 180

300 275000

AF-360

360 290000

340 290000 590 142 144 424 8 370 367 21 M27x180 10.9 1210 200

320 290000

AF-390

390 363000

370 363000 630 146 148 458 8 400 398 20 M30x190 10.9 1640 222

350 363000

AF-420

420 407000

400 407000 650 166 168 490 8 430 424 21 M30x210 10.9 1640 263

380 407000

AF-440

440 426000

420 426000 670 174 176 512 8 450 448 21 M30x220 10.9 1640 309

400 426000


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


INDUSTRIAL


AF Series 23

Model A Model AB

Model C Model BC


Shaft diameter

Series

Nominal size



Used Symbols







MEX (55) 53 63 23 31QRO (442) 1 95 72 60


INDUSTRIAL


AF Series 23

Typdw

mmMtmax

NmD

mmI

mmH

mm A

mmC

mmd

mmB

mmZ

Stk.S Class Ma

NmWeight

kg

AF-50

50 3300

45 2200 115 29 30 84 3 53 58 7 M12x45 10.9 100 2

40 1400

AF-60

60 4700

55 3500 120 32 34 94 3 63 66 9 M12x50 10.9 100 2,2

50 2300

AF-70

70 9400

65 7600 148 38 40 112 4 74 79 8 M16x60 10.9 240 3,9

60 5800

AF-80

80 12000

75 10000 167 43 46 130 4 84 94 9 M16x65 10.9 240 5,4

70 8000

AF-90

90 18000

85 15000 185 48 50 144 4 94 104 12 M16x70 10.9 240 7,4

80 12000

AF-100

100 23000

95 19000 197 52 54 156 4 104 114 14 M16x75 10.9 240 8,7

90 16000

AF-110

110 27000

105 26000 215 56 58 166 5 116 124 10 M20x90 10.9 470 11

100 22000

AF-120

120 43000

115 38000 230 62 65 186 5 126 134 14 M20x90 10.9 470 13,6

110 33000

AF-140

140 56000

130 50000 290 75 76 216 5 146 160 16 M20x100 10.9 470 29

120 39000

AF-160

160 77000

150 77000 320 82 83 234 5 166 180 14 M24x110 10.9 820 36,1

140 64000

AF-180

180 104000

170 101000 340 91 94 276 5 186 205 16 M24x130 10.9 820 45,3

160 85000

AF-200

200 144000

190 133000 370 95 96 290 5 206 226 16 M27x140 10.9 1210 53,7

180 114000

AF-220

220 178000

210 178000 405 96 96 320 5 226 246 18 M27x140 10.9 1210 64,3

200 159000

AF-240

240 211000

230 211000 430 109 110 340 5 246 267 20 M27x150 10.9 1210 81

220 211000

AF-260

260 232000

250 234000 460 118 118 356 5 286 289 21 M27x160 10.9 1210 109,4

240 234000


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


INDUSTRIAL


AF Series 23

Typdw

mmMtmax

NmD

mmI

mmH

mm A

mmC

mmd

mmB

mmZ

Stk.S Class Ma

NmWeight

kg

AF-280

280 234000

270 234000 485 124 125 360 5 306 304 21 M27x180 10.9 1210 116

260 234000

AF-300

300 247000

290 247000 520 128 126 380 5 330 315 21 M27x180 10.9 1210 141

280 247000

AF-320

320 299000

310 299000 550 134 136 402 5 350 336 24 M27x180 10.9 1210 161

300 299000

AF-340

340 315000

330 315000 570 140 143 424 8 370 368 24 M27x180 10.9 1210 177

320 315000

AF-360

360 410000

350 410000 610 144 147 454 8 400 383 24 M30x190 10.9 1640 210

340 410000

AF-390

390 439000

380 439000 630 164 167 486 8 430 428 24 M30x200 10.9 1640 250

360 439000

AF-420

420 457000

410 457000 670 172 175 506 10 450 440 24 M30x220 10.9 1640 292

390 457000

AF-440

440 562000

420 562000 700 172 175 534 10 470 468 28 M30x220 10.9 1640 318

400 562000


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


INDUSTRIAL



MEX (55) 53 63 23 31QRO (442) 1 95 72 60


INDUSTRIAL


Notes


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


INDUSTRIAL


Further products from our company

Clamping devices

TAS 110 TAS 130 TAS 131 TAS 3003 TAS 3006 TAS 3012

TAS 3013 TAS 3015 TAS 3015DK TAS 3020 TAS 4006 TAS 7014

Shaft couplings

TAS W TAS WK TAS WLA TAS WLB TAS AFS

Hydraulic actuated shrink discs

TAS SHS

Shrink discs in two-parts design

TAS 3173 TAS 3171, 3181, 3191, 3193

Shrink discs in three-parts design

TAS 3073 TAS 3051, 3071, 3081, 3091, 3093 Geteilt Halb-G Halb-D


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


INDUSTRIAL

TAS Schäfer GmbHOsterfeldstraße 75

58300 Wetter (Ruhr)Germany

Phone: +49 (0) 2335 9781-0

FAX: +49 (0) 2335 72956

E-Mail: [email protected]

Internet: www.tas-schaefer.de


MEX (55) 53 63 23 31QRO (442) 1 95 72 60


INDUSTRIAL

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